We demonstrate dynamic trapping and manipulation of nanoparticles with plasmonic holograms. By tailoring the illumination pattern of an incident light beam with a computer-controlled spatial light modulator, constructive and destructive interference of plasmon waves create a focused hotspot that can be moved across a surface. Specifically, a computer-generated hologram illuminating the perimeter of a silver Bull’s Eye nanostructure generates surface plasmons that propagate toward the center. Shifting the phase of the plasmon waves as a function of space gives complete control over the location of the focus. We show that 200 nm diameter nanoparticles trapped in this focus can be moved in arbitrary patterns. This allows, for example, circular...
This chapter discusses a hydrodynamics-inspired approach to trap and manipulate light in plasmonic n...
Near-field optical trapping of objects using plasmonic antenna structures has recently attracted gre...
We demonstrate that the direction, spectral composition and wavefront of optical radiation stimulate...
This Perspective describes recent progress in optical trappings of nanoparticles based on localized ...
Conventional optical tweezers, formed at the diffraction-limited focus of a laser beam, have become ...
Plasmonic nanoparticles, typically gold and silver colloids, can be trapped by a highly focused Gaus...
Hybridization in the narrow gaps between the surface plasmon polaritons (SPPs) along a metal surface...
Arrangements of nanostructures in well-defined patterns are the basis of photonic crystals, metamate...
Optical tweezers and associated manipulation tools in the far field have had a major impact on scien...
Recent advances in nanotechnology have prompted the need for tools to accurately and noninvasively m...
The ability of metallic nanostructures to confine light at the sub-wavelength scale enables new pers...
The field of plasmonics1 offers a route to control light fields with metallic nanostructures through...
In this article, we discuss the basic principles of optical manipulation of nanoparticles to micron ...
Three-dimensional focusing of evanescent waves by specially configured surface arrays of nanoparticl...
We have developed holographic optical tweezers that can manipulate many particles simultaneously in ...
This chapter discusses a hydrodynamics-inspired approach to trap and manipulate light in plasmonic n...
Near-field optical trapping of objects using plasmonic antenna structures has recently attracted gre...
We demonstrate that the direction, spectral composition and wavefront of optical radiation stimulate...
This Perspective describes recent progress in optical trappings of nanoparticles based on localized ...
Conventional optical tweezers, formed at the diffraction-limited focus of a laser beam, have become ...
Plasmonic nanoparticles, typically gold and silver colloids, can be trapped by a highly focused Gaus...
Hybridization in the narrow gaps between the surface plasmon polaritons (SPPs) along a metal surface...
Arrangements of nanostructures in well-defined patterns are the basis of photonic crystals, metamate...
Optical tweezers and associated manipulation tools in the far field have had a major impact on scien...
Recent advances in nanotechnology have prompted the need for tools to accurately and noninvasively m...
The ability of metallic nanostructures to confine light at the sub-wavelength scale enables new pers...
The field of plasmonics1 offers a route to control light fields with metallic nanostructures through...
In this article, we discuss the basic principles of optical manipulation of nanoparticles to micron ...
Three-dimensional focusing of evanescent waves by specially configured surface arrays of nanoparticl...
We have developed holographic optical tweezers that can manipulate many particles simultaneously in ...
This chapter discusses a hydrodynamics-inspired approach to trap and manipulate light in plasmonic n...
Near-field optical trapping of objects using plasmonic antenna structures has recently attracted gre...
We demonstrate that the direction, spectral composition and wavefront of optical radiation stimulate...